Aether Percolation is Longitudinal, with a Twist

I have been covering the magic angle of superconducting and entanglement generating gr@phene in the past few posts. The magic angle, which is 1.1 degrees, is the same for superconduction as it is for entanglement generation. This puts the two phenomenon (entanglement and superconduction) on par with one another, meaning that both are classically driven mechanisms. If superconduction can be described classically, then by virtue of the common magic angle, so too can entanglement be described classically.

There is a pun in the title.

For whatever reason, aether percolation requires a 1.1 degree entry angle. The dipole moments of the originating crystal must be directing the flow of energy, but that direction (for whatever reason) needs to be biased with a slightly non-linear flow in order to induce self assembly and propagation in lyotropic aether. So, the energy becomes a tight spiral or “vortex” of percolating moments of energy-momentum in the aether.  The natural mode of this vortex is in longitudinal moments of energy, but these longitudinal moments are induced to have a very slight boucing action inside of the waveguide of the originating crystal lattice, and subsequently of the lyotropic aether.  

It is the idea of aether-scale/ atomic scale percolation that is responsible for the seeming invisibility of the energy forces that connect entangled objects.  Most lab measurement devices depend on the “human scale” macro world measurement schemes of charge, voltage, current, and such, which require a build-up of many energy moments in order to be detected at all.  The tiny circuit flows of lyotropic aether traces or filaments are undetected by lab devices built to measure built-up charges and transverse waves.

The transverse waves we normally detect with conventional equipment are directed by the waveguide of the larger cross-section of bunched filaments in the aether, as compared to a single filament, due to the well-known pinch effect and the tendency for bunching to occur within many closely-packed traces of percolating energy.  Inner vortexes tend to pull outer ones along, until a (human scale) tranverse wave can be guided by the composite alignments.  Most of the energy is tranferred by the secondary wave (the transverse wave) because the magic angle restricts the direct-flow energy to a few moments (we may call them “photons”) that are in alignment with the crystal – while the balance of the energy is transferred via the waveguide effect and the resulting transverse form. The waveguide mechanism is refraction, which creates a so-called discontinuity in the aether, and supports the transverse flow of energy. This discontinuity is directly analogous to the discontinuity that exists at the ends of resonant antennas.

Note that the base mode for propagation in the outer-band refracted transverse wave is also longitudinal, consisting of many refracted slow-c (amorphous-like) filaments whose energy is in the form of native longitudinal force. It is the larger waveguide of the composite, rather than the singular waveguide of the aether trace, that guides the transverse wave.

Note: the author is a writer on technical subjects in some areas, of novels, and of other literature, but does not have any formal credentials related to the medical field, or in physics.  Thus, this all constitutes an opinion of what might be possible, based on his own hobby-level knowledge quests.

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Entanglement is an Echo

Entanglement is a reverberation of echoes, plain and simple. It’s easy classical physics. The FTL reverberation happens so quickly due to mostly longitudinal (but not scalar) energy moments that are aether-crystal-node scaled. They echo so quickly such that it seems instantaneous. Did I mention that entanglement is an echo? Imagine two loose rocks, each one on opposite sides of a canyon. Someone yells, and an echo starts, bouncing back and forth. One rock can modify the other’s fate, and cause either rock to fall. With atoms, it is less subtle.

Most methods to create entangled “quantum particles” involve crystals. Those crystals are usually barium borate(BBO), silicon nitride, or graphene. They are ALL hexagonal crystals. Such crystals “match” the aether, bootstrapping liquid-crystal-like traces for entanglement echos. Entanglement is an echo of mostly longitudinal percolations of energy moments along hexagonal crystal vertices. The echo is FTL, and the maximum reverberation of the echo is defined by Young’s modulus. Transverse waves are caused by refractive discontinuities and are secondary.

In presence of energy, the aether acts like a liquid crystal at atomic scale granularity. Individual point source moments are mostly longitudinal “rays” while the transverse wave is caused by the collective refraction gradient made by the “ray” traces propagated by self assembly. By “collective,” I mean the collective of all point source “rays” that make up the total of the initial primary energy moments, and their collective refractive discontinuities.

Did I mention that entanglement is an echo? It’s neither “official quantum mechanics” nor is it entanglement, really, but that’s what they’ve called it for a hundred years. When in Rome …

Of course transverse waves are secondary! How could a 1/10 nano-meter atom completely absorb a 1 micron transverse energy wave? That wavelength is 10,000 times bigger than a typical atom, and cannot be absorbed sensibly. Primary energy has longitudinal/torsional point source geometries.

First comes the primary percolation of energy moments thru a hexagonal crystal, via vertices (six per hexagonal crystal cell). These are effectively crystal “waveguides” with tiny transverse geometries, allowing for the longitudinal direction of moment transfer through them. Collective refraction follows, generating the much larger transverse wave.

Would we call the point source energy moment propagation through the crystal a transverse or a longitudinal propagation? Likely it is both. At amorphous aether granule scales it is likely longitudinal, but at the aether crystal and atomic crystal geometry scales it is likely to be partially transverse. The longitudinal moment transfer is necessary for the crystal structure to self assemble and self-organize into a trace for an entanglement echo. But, the lattice percolation is likely partially transverse (on the very tiny scale of the crystal lattice, and even smaller scale of aether crystal). Both scales are dwarfed by the size of the secondary transverse wave that is subsequently generated via the refractive discontinuity of all point source ray moments combined. It seems that it needs to be that way, else we’d have the cart before the horse. A “waveguide” is needed for transverse oscillation, but the waveguide doesn’t exist unless there is a longitudinal moment to construct it.

The longitudinal mode is the base mode of nature. The transverse modes (both crystal percolation transfer mode and refractive discontinuity transfer mode ( human scale i.e., blue,green, 530nm, etc) – are a sort of waveguide “formation” that includes the base mode as the effective moment transfer, but “looks” transverse due to the refraction of the waveguide.

The corners of the crystal’s vertices will engender their own internal-gradients – and these will tend to make the internal facets of the waveguides to be rounded, and facilitate torsional (angular) momentum. Refraction within the waveguide will tend to centralize the propagation, lowering the transverse component.

This is a step back from my earlier longitudinal moment transfer opinions. But – I think now that it is not an either/or but instead it is “all of the above” sort of answer. Different definitions apply depending upon which scale is in play: aether crystal percolation, atomic crystal percolation, or human scale measurement.

Note: the author is a writer on technical subjects in some areas, of novels, and of other literature, but does not have any formal credentials related to the medical field, or in physics.  Thus, this all constitutes an opinion of what might be possible, based on his own hobby-level knowledge quests.